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PepPA coordinates multi-objective peptide generation and computational verification before final sequence commitment. The internal design loop uses PepDFM/MOG-DFM and PepMDLM/PepTune with SOAPIA, moPPIt, AlloGen, and PeptiVerse objectives. Outer checks cover AF3/docking/EvoBind structures, external pepADMET predictions, chemical identity, synthesizability, and CMC. Required human and preclinical contexts define robust generation objectives. Experimental characterization follows the frozen computational release.
This is a manuscript and reference implementation package. The CPU kernel runs deterministic dependency graphs, validates outputs, aggregates endpoint-compatible model predictions, and applies release checks. Native scientific workers and full benchmark experiments require the integrations listed in
docs/IMPLEMENTATION_STATUS.md
. Integration into the existing PeptiVerse Hugging Face Space is planned.
The example uses eight real, pinned SNOOPPI records. It preserves their interaction labels and demonstrates complete execution with an empty peptide release because required property predictions and chemical verification are absent. It runs no GPU model and invents no scores. The saved trace reproduces exactly from its cache. Thirty-four local tests cover execution, aggregation, release, scientific utilities, and the maximum-effort provider request settings. Synthetic values occur in explicitly labeled unit fixtures.
Computational formulation
Define targets, countertargets, chemistry, human/preclinical contexts, endpoints, and budgets.
Retrieve a fixed source snapshot and construct source-linked mechanistic hypotheses.
Compile tool dependencies, requirements, model revisions, and conditional branches.
Generate up to 192 proposals using native multi-objective frameworks.
Evaluate required properties, structures, external checkers, and synthesis/CMC requirements.
Apply the fixed diagnostic-to-redesign rule for at most 192 further proposals.
Commit chemically defined sequences with complete context-specific reports and source records.
The plan is frozen before execution. Every molecular change has a new identity and fresh scores. Experimental data belong in a separate evaluation dataset keyed to the frozen release hash.
Files
src/peppa/compiled.py
: deterministic CPU reference kernel, lineage-aware stacking, robust reward, redesign schedule, and release checks.
scripts/run_compiled_example.py
: real-source-data execution and incomplete-release example.
results/compiled_trace.jsonl
,
results/compiled_release.json
: actual outputs from that example.
docs/SOPHIE_RUNBOOK.md
: E0–E5 execution instructions, exact study allocations, controls, artifacts, and analysis.
docs/IMPLEMENTATION_STATUS.md
: tested implementation and required native integrations.
docs/WORKER_INTEGRATION.md
: scientific worker APIs and score contracts.
docs/SPACE_DESIGN.md
: planned Muse-backed agent within the PeptiVerse Space.
configs/study_plan.json
: synchronized computational and prospective study design.
configs/model_registry.json
: pinned model and dataset revisions.
schemas/PlanProposal.json
: language-model plan interface.
schemas/
: existing chemical/worker record schemas.
assets/figures/
: vector PDFs, editable SVGs, and PNG previews with Ubuntu labels.
docs/references.bib
,
docs/PepPA.pdf
: bibliography and compiled manuscript.
The original
peppa run
controller engine remains available for baseline/tool-adapter development. The primary frozen-plan formulation uses
peppa.compiled
; native worker and language-model compiler integration remains an explicit implementation stage.
results/real_data_trace.jsonl
is the source-ingestion example regenerated from the pinned source records.
Models and scientific workers
Muse Glimmer-30B is the default open-weight backend. Its pinned identity is recorded in
configs/model_registry.json
. GPT-6 Astra Max and Claude Opus Max use the same PlanProposal schema. Provider credentials and exact serving revisions are supplied in the execution environment. The archive includes provider adapters but contains no live provider evaluation.
moPPIt and PeptiVerse bridges follow the inspected native APIs. PepDFM/MOG-DFM, PepMDLM/PepTune, SOAPIA, AlloGen, AF3, docking, EvoBind, pepADMET, chemical standardization, and manufacturing checks require worker registration and known-input preflight. Every worker must report its input chemistry, native endpoint, units, target context, checkpoint, preprocessing, and training lineage.
External code, weights, logos, and fonts retain their original rights. See
NOTICE.md
. The LaTeX project compiles with XeLaTeX, BibTeX, XeLaTeX, XeLaTeX.
Runs of ChatterjeeLab PepPA on huggingface.co
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24-hour runs
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3-day runs
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7-day runs
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30-day runs
More Information About PepPA huggingface.co Model
PepPA huggingface.co
PepPA huggingface.co is an AI model on huggingface.co that provides PepPA's model effect (), which can be used instantly with this ChatterjeeLab PepPA model. huggingface.co supports a free trial of the PepPA model, and also provides paid use of the PepPA. Support call PepPA model through api, including Node.js, Python, http.
PepPA huggingface.co is an online trial and call api platform, which integrates PepPA's modeling effects, including api services, and provides a free online trial of PepPA, you can try PepPA online for free by clicking the link below.
ChatterjeeLab PepPA online free url in huggingface.co:
PepPA is an open source model from GitHub that offers a free installation service, and any user can find PepPA on GitHub to install. At the same time, huggingface.co provides the effect of PepPA install, users can directly use PepPA installed effect in huggingface.co for debugging and trial. It also supports api for free installation.